WO1997014719A1 - Analogue de fragment d'anticorps bifonctionnel ou bivalent - Google Patents

Analogue de fragment d'anticorps bifonctionnel ou bivalent Download PDF

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Publication number
WO1997014719A1
WO1997014719A1 PCT/EP1996/003605 EP9603605W WO9714719A1 WO 1997014719 A1 WO1997014719 A1 WO 1997014719A1 EP 9603605 W EP9603605 W EP 9603605W WO 9714719 A1 WO9714719 A1 WO 9714719A1
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Prior art keywords
antibody fragment
pgosa
peptide linker
gosa
fragment analogue
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PCT/EP1996/003605
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English (en)
Inventor
Paul James Davis
Cornelis Paul Erik Van Der Logt
Martine Elisa Verhoeijen
Steve Wilson
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Unilever N.V.
Unilever Plc
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Publication date
Application filed by Unilever N.V., Unilever Plc filed Critical Unilever N.V.
Priority to AU68733/96A priority Critical patent/AU6873396A/en
Priority to BR9606706A priority patent/BR9606706A/pt
Priority to US08/860,174 priority patent/US5989830A/en
Priority to EP96929260A priority patent/EP0799244A1/fr
Publication of WO1997014719A1 publication Critical patent/WO1997014719A1/fr

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    • C—CHEMISTRY; METALLURGY
    • C07—ORGANIC CHEMISTRY
    • C07K—PEPTIDES
    • C07K16/00—Immunoglobulins [IGs], e.g. monoclonal or polyclonal antibodies
    • C07K16/46—Hybrid immunoglobulins
    • C07K16/468—Immunoglobulins having two or more different antigen binding sites, e.g. multifunctional antibodies
    • C—CHEMISTRY; METALLURGY
    • C07—ORGANIC CHEMISTRY
    • C07K—PEPTIDES
    • C07K16/00—Immunoglobulins [IGs], e.g. monoclonal or polyclonal antibodies
    • C—CHEMISTRY; METALLURGY
    • C07—ORGANIC CHEMISTRY
    • C07K—PEPTIDES
    • C07K2319/00—Fusion polypeptide

Definitions

  • the invention relates to new bispecific or bivalent
  • antibody fragment analogues a process for preparing such antibody fragment analogues and various uses of such antibody fragment analogues.
  • Antibody molecules typically are Y-shaped molecules whose basic unit consist of four polypeptides, two identical heavy chains and two identical light chains, which are covalently linked together by disulfide bonds. Each of these chains is folded in discrete domains.
  • the C- terminal regions of both heavy and light chains are conserved in sequence and are called the constant regions, also known as C-domains.
  • the N-terminal regions, also known as V-domains are variable in sequence and are responsible for the antibody specificity.
  • the antibody specifically recognizes and binds to an antigen mainly through six short
  • fragments as they contained the antigen-binding site.
  • Digestion with pepsin is such that the two Fab's remain connected via the hinge, forming only two fragments: Fc' and Fab 2 .
  • the Fv is the smallest unit of an antibody which still contains the complete binding site (see Figure 1) and full antigen binding activity. It consists of only the V-domains of the heavy and light chains thus forming a small,
  • Fv's have a
  • Fv's were only available by proteolysis in a select number of cases (Givol, 1991).
  • the production of Fv's can now be achieved more routinely using genetic engineering methods through cloning and expressing DNA encoding only the V-domains of the antibody of interest.
  • Smaller fragments such as individual V-domains (Domain Antibodies or dABs, Ward et al . , 1989), and even individual CDR's (Williams et al . , 1989; Taub et al . , 1989) were shown to retain the binding characteristics of the parent
  • the exposed hydrophobic patches are thought to contribute to aggregation of the protein inside the cells and/or in the culture medium, leading to poor expression and/or poor solubility (Anthony et al . , 1992; Ward et al . , 1989).
  • the hydrophobic patches can also explain the high non-specific binding described by Berry and Davies, 1992. These problems clearly limit the usefulness of these molecules.
  • Camelid antibodies appear to be an exception to this rule in that they only need one V-domain, namely V H , to specifically and effectively bind an antigen (Hamers-Castermans et al ., 1993). In addition, preliminary data indicate that they seem not to suffer from the
  • mouse dABs as these camelid antibodies or fragments thereof are soluble and have been shown to express well in yeast and Aspergillus moulds.
  • alternative systems can be relatively high (1-2 g/1 for Fab secreted to the periplasmic space of E. coli in high cell density fermentation, see Carter et al . , 1992), or at a lower level, e.g. about 0.1 mg/l for Fab in yeast in fermenters (Horwitz et al . , 1988), and 150 mg/l for a fusion protein CBHI-Fab and 1 mg/1 for Fab in Trichoderma in fermenters (Nyyssönen et al . , 1993) and such production is very cheap compared to whole antibody production in mammalian cells (hybridoma, myeloma, CHO).
  • the fragments can be produced as Fab's or as Fv's, but additionally it has been shown that a V H and a V L can be genetically linked in either order by a flexible
  • the antibody fragments Fab, Fv and scFv differ from whole antibodies in that the antibody fragments carry only a single antigen-binding site .
  • Recombinant f ragments with two binding sites have been made in several ways, for example, by chemical cross-linking of cysteine residues introduced at the C-terminus of the V H of an Fv (Cumber et al . , 1992), or at the C-terminus of the V L of an scFv (Pack and
  • bispecific antibody fragments When two different specificities are desired, one can generate bispecific antibody fragments.
  • the traditional approach to generate bispecific whole antibodies was to fuse two hybridoma cell lines each producing an antibody having the desired specificity. Because of the random association of immunoglobulin heavy and light chains, these hybrid hybridomas produce a mixture of up to 10 different heavy and light chain combinations, only one of which is the bispecific antibody (Milstein and Cuello, 1983).
  • V H and V L covalently linking V H and V L was removed, thus generating two proteins each consisting of a V H directly and
  • Patent application WO 94/09131 (SCOTGEN LTD; priority date 15.10.92) relates to a bispecific binding protein in which the binding domains are derived from both a V H and a V L region either present at two chains or linked in an scFv, whereas other fused antibody domains, e.g. C-terminal constant domains, are used to stabilise the dimeric constructs.
  • Patent application WO 94/13804
  • V H 1-linker-V L 1-linker-V H 2-linker-V L 2 fragment was shown to contain both antigen binding specificities 1 and 2.
  • Traditionally whenever single-chain antibody fragments are referred to, a single molecule consisting of one heavy chain linked to one (corresponding) light chain in the presence or absence of a polypeptide linker is implicated.
  • the present invention provides a bispecific or bivalent antibody fragment analogue, which comprises a binding complex containing two polypeptide chains, one of which comprises two times a variable domain of a heavy chain (V H ) in series and the other comprises two times a variable domain of a light chain (V L ) in series.
  • one chain of the antibody fragment analogue comprises a first V H (V H -A) connected to a second V H (V H -B) and the other chain comprises a first V L (V L -A) connected to a second V L (V L -B).
  • one chain comprises a first V H (V H -A) followed by a second V H (V H -B), thus [V H -A * V H -B]
  • the other chain comprises a first V L (V L -A) preceded by a second V L (V L -B), thus [V L -B * V L -A].
  • the two V H 's are directly connected to each other, but for other embodiments of this aspect of the invention the two V L 's are directly connected to each other.
  • the two V H 's are connected to each other by a linker and also the two V L 's are connected to each other by a linker.
  • a linker usually comprises at least one amino acid residue.
  • one chain comprises a first V H (V H -A) followed by a second V H (V H -B), thus [V H -A * V H -B], and the other chain comprises a first V L (V L -A) followed by a second V L (V L -B), thus [V L -A * V L -B], and in which the two V H 's are connected to each other by a linker and also the two V L 's are
  • each linker comprises at least 10 amino acid residues.
  • bispecific or bivalent antibody fragment analogues can be used in a diagnostic technique or for immunoassays, in a purification method, for therapy, or in other methods in which immunoglobulins or fragments thereof are used. Such uses are well-known in the art.
  • the invention also provides a process for producing the antibody fragments of the invention in that a host is transformed by incorporating into that host a DNA encoding the two V H 's with or without a connecting linker and a DNA encoding the two V L 's with or without a connecting linker.
  • a host is transformed by incorporating into that host a DNA encoding the two V H 's with or without a connecting linker and a DNA encoding the two V L 's with or without a connecting linker.
  • the two DNA's are placed in a dicistronic arrangement.
  • the two linked V H 's and the two linked V L 's are produced separately by different hosts, after which the linked V H 's produced by one host can be combined with the linked V L 's produced by the other host.
  • the hosts can be selected from the group consisting of prokaryotic bacteria of which examples are Gram-negative bacteria, e.g. E. coli , and Gram-positive bacteria, e.g. B . subtilis or lactic acid bacteria, lower eukaryotes examples of which are yeasts, e.g. belonging to the genera
  • Saccharomyces, Kluyveromyces, or Trichoderma, moulds e.g. belonging to the genera Aspergillus and Neurospora, and higher eukaryotes, examples of which are plants, e.g.
  • Figure 1 depicts in schematic form the structure of a typical antibody (immunoglobulin) molecule.
  • Figure 2 shows a schematic representation of published arrangements of heavy and light chain V-domain gene fragments that have been proven to produce bispecific antibody fragments.
  • V H A-V H B + V L B-V L A arrangement of the V-domains of a double head antibody fragment according to the invention with the V-domains in the following order: V H A-V H B + V L B-V L A.
  • Figure 4 shows the nucleotide sequence of the EcoRI- HindIII insert of pUR.4124 containing DNA (see SEQ ID NO: 1) encoding V L Lys-Linker-V H Lys (see SEQ ID NO: 2).
  • Figure 5 shows the nucleotide sequence of the HindIII- EcoRI insert of plasmid Fv.3418 (see SEQ ID NO: 3) containing DNA encoding pelB leader- V H 3418 (see SEQ ID NO: 4) and DNA encoding pelB leader-V L 3418 (see SEQ ID NO: 5).
  • Figure 6 shows the nucleotide sequence of the HindIII- EcoRI insert of plasmid Fv.4715-myc (see SEQ ID NO: 6) containing DNA encoding pelB leader- V H 4715 (see SEQ ID NO : 7) and DNA encoding pelB leader-V L 4715-Myc tag (see SEQ ID NO: 8).
  • Figure 7 shows the nucleotide sequence of the HindIII- EcoRI insert of scFv.4715-myc containing DNA (see SEQ ID NO: 9) encoding pelB leader- V H 4715-Linker-V L 4715-Myc tag (see SEQ ID NO: 10).
  • Figure 8 a/b shows the nucleotide sequence of the HindIII- EcoRI insert of pGOSA.E (see SEQ ID NO: 11) containing DNA encoding pelB leader-V H 4715- Linker-V L 3418 (see SEQ ID NO: 12) and DNA encoding pelB leader-V L 3418-Linker-V H 4715 (see SEQ ID NO: 13).
  • Figure 9 gives an overview of the oligonucleotides and their positions in pGOSA.E that can be used to replace V-domain gene fragments.
  • Figure 10 illustrates the amino acid sequence of the V H - V H and V L -V L domain junctions in fusion
  • polypeptides GOSA.E see amino acids 114-145 in SEQ ID NO: 12 and amino acids 102-128 in
  • Figure 11 shows the specificity of Streptococcus binding of scFv.4715-myc.
  • Figure 12 shows the specificity of glucose oxidase
  • Figure 13 shows the specificity of glucose oxidase
  • Figure 14 shows the specificity of glucose oxidase
  • Figure 15 shows the specificity of glucose oxidase
  • Figure 16 shows the results of an ELISA.
  • Figure 17 shows the results of an ELISA. Individual
  • Figure 18 shows the results of an ELISA. Individual
  • Figure 19 shows the results of an ELISA. Individual
  • Figure 20 shows the source of fragment PCR.
  • I BstEII/SacI Figure 21 shows the source of fragment PCR.
  • II SfiI/EcoRI Figure 22 shows the source of fragment PCR.
  • III NheI/SacI Figure 23 shows the source of fragment PCR.
  • IV XhoI/EcoRI Figure 24 shows the source of fragment PCR.
  • V SalI/EcoRI Figure 25 shows the source of fragment PCR.
  • VI SfiI/NheI Figure 26 shows the source of fragment PCR.VII
  • Figure 27 shows the source of fragment PCR.VIII
  • Figure 28 shows the source of fragment PCR.
  • Figure 29 shows the source of fragment PCR.
  • X PstI/EcoRI Figure 30 shows the construction of plasmid pGOSA.
  • a Figure 31 shows the construction of plasmid pGOSA.
  • B Figure 32 shows the construction of plasmid pGOSA.
  • C Figure 33 shows the construction of plasmid pGOSA.
  • D Figure 34 shows the construction of plasmid pGOSA.
  • E Figure 35 shows the construction of plasmid pGOSA.
  • V Figure 36 shows the construction of plasmid pGOSA.
  • S Figure 37 shows the construction of plasmid pGOSA.T Figure 38 a/b shows the construction of plasmid pGOSA.G Figure 39 shows the construction of plasmid pGOSA.
  • J Figure 40 shows the construction of plasmid pGOSA.Z Figure 41 shows the construction of plasmid pGOSA.
  • AA Figure 42 shows the construction of plasmid pGOSA.AB
  • Figure 43 shows the construction of plasmid pGOSA.L
  • Figure 44 shows the construction of plasmid pGOSA.Y
  • Figure 45 shows the construction of plasmid pGOSA.
  • Figure 46 shows the construction of plasmid pGOSA.AC
  • Figure 47 shows the construction of plasmid pGOSA.AD.
  • an antibody fragment analogue consisting of a two chain protein complex
  • one of the chains consists of two heavy chain V-domains and the other chain consists of the two corresponding light chain V-domains in either order.
  • variable domains are linked either directly or through a polypeptide linker. Subsequent molecular modelling of this combination suggested that the protein chains could fold such that both binding sites are fully accessible, provided that the connecting linkers are kept long enough to span 30 to 35 A.
  • double heads contain both antigen binding specificities of the Fv's used to generate these bispecific antibody fragments. It is exemplified that these type of constructs according to the invention can be used to target the enzyme glucose oxidase to whole
  • E. coli JM109 endA1, recA1, gyrA96, thi, hsdR17(r K , m K + ), relA1, supE44, ⁇ ( lac-proAB), [F', traD36, proAB, lacI q Z ⁇ M15].
  • E. coli cultures were grown in 2xTY medium (16 g tryptone, 10 g yeast extract, 5 g NaCl per litre H 2 O), where indicated supplemented with 2% glucose and/or 100 ⁇ g/ml ampicillin.
  • Transformations were plated out on SOBAG plates (20 g tryptone, 5 g yeast extract, 15 g agar, 0.5 g NaCl per litre H 2 O plus 10 mM MgCl 2 , 2% glucose, 100 ⁇ g/ml
  • the expression vectors used are derivatives of pUC19.
  • the oligonucleotide primers used in the PCR are derivatives of pUC19.
  • Colonies from freshly transformed JM109 plated onto SOBAG plates were used to inoculate 2xTY medium supplemented with 100 ⁇ g/ml ampicillin, 2% glucose. Cultures were shaken at 37°C to an OD 600 in the range of 0.5 to 1.0. Cells were pelleted by centrifugation and the supernatant was removed. The pelleted cells were resuspended in 2xTY medium with 100 ⁇ g/ml ampicillin, 1 mM IPTG, and grown for a further 18 hours at 25°C. Cells were pelleted by centrifugation and the supernatant, containing the secreted chains, used directly in an ELISA.
  • the proteins in the periplasm of the pelleted cells were extracted by resuspending the cell pellet in 1/20 of the original culture volume of lysis buffer (20% sucrose, 200 mM Tris-HCl pH 7.5, 1 mM EDTA, 500 ⁇ g/ml lysozyme). After incubation at 25°C for 20 minutes an equal volume of H 2 O was added and the incubation was
  • GOSA.E, GOSA.V, GOSA.S and GOSA.T were partially purified by affinity chromatography. 100 ml periplasmic extract of each of these constructs was loaded onto a Glucose-oxidase-Sepharose column (CNBr-Sepharose, Pharmacia) prepared according to the manufacturer's instructions. After
  • variable domains are linked either directly or through a polypeptide linker.
  • the expression vectors used are
  • HindIII-EcoRI fragment that in the case of plasmid scFv.4715-myc contains a DNA fragment encoding one pelB signal sequence fused to the N-terminus of the V H that is directly linked to the corresponding V L of the antibody through a connecting flexible peptide linker, (Gly 4 Ser) 3 (present in SEQ ID NO: 2 as amino acids 109-123 and in SEQ ID NO: 10 as amino acids 121-135), thus generating a single-chain molecule (see Figure 7).
  • the DNA fragments encoding both the V H and V L of the antibody are preceded by a ribosome binding site and a DNA sequence encoding the pelB signal sequence in an artificial
  • the pGOSA.E derivatives pGOSA.V, pGOSA.S and pGOSA.T with only one or no linker sequence are derived from the pGOSA.E construct by removing the linker sequences by means of PCR directed mutagenesis with oligonucleotides listed in Table 1 below. These three constructs lack some of the restriction sites at the new joining points.
  • the V H A-V H B gene fragment without a linker lacks the 5' V H B SfiI site.
  • the V L B-V L A gene fragment without a linker lacks the 5' V L A SalI site.
  • FIG. 9 shows the amino acid sequence of the junctions between the V H A-V H B and V L B-V L A fragments encoded by DNA present in pGOSA.E, pGOSA.V, pGOSA.S and pGOSA.T.
  • pGOSA.E, pGOSA.V, pGOSA.S and pGOSA.T A more detailed description of the preparation of pGOSA.E, pGOSA.V, pGOSA.S and pGOSA.T is given in Example 5.
  • double heads i.e. the two chain protein complexes, contain both antigen binding
  • Figure 12-15 show that GOSA.E, GOSA.V, GOSA.S and GOSA.T can be used to specifically target the enzyme glucose oxidase to several Streptococcus sanguis strains using antibody fragments derived from hybridoma' s expressing antibodies directed against these antigens.
  • GOSA.E, GOSA.V, GOSA.S and GOSA.T samples were analysed on a Pharmacia FPLC Superose 12 column. The analysis was performed using PBS at a flow rate of 0.3 ml/minute. Eluate was monitored at 280 nm and 0.3 ml fractions were collected and analysed by ELISA.
  • GOSA.E, GOSA.V, GOSA.S and GOSA.T are primarily produced as dimeric molecules. Occasionally an activity peak with an apparent molecular weight of ⁇ 200 kD was observed (see Figure 16). The presence of Glucose Oxidase activity in these fractions (data not shown) indicate that these fractions contain GOSA double head complexed with glucose oxidase that was eluted with the GOSA sample from the glucose oxidase-sepharose affinity matrix.
  • the primary structures of the oligonucleotide primers used in the construction of the bispecific 'pGOSA' constructs are shown in Table 1 above.
  • Reaction mixture used for amplification of DNA fragments were 10 mM Tris-HCl, pH 8.3, 2.5 mM MgCl 2 , 50 mM KCl, 0.01% gelatin (w/v), 0.1% Triton X-100, 400 mM of each dNTP, 5.0 units of Vent DNA polymerase (New England Biolabs), 100 ng of template DNA, and 500 ng of each primer (for 100 ⁇ l reactions).
  • Reaction conditions were: 94°C for 4 minutes, followed by 33 cycles of each 1 minute at 94°C, 1 minute at 55°C, and 1 minute 72°C.
  • Plasmid DNA was prepared using the 'Qiagen P-100 Midi-DNA Preparation' system. Vectors and inserts were prepared by digestion of 10 ⁇ g (for vector preparation) or 20 ⁇ g (for insert preparation) with the specified restriction
  • Vector DNAs and inserts were separated through agarose gel electrophoresis and purified with DEAE-membranes NA45 (Schleicher & Schuell) as described by Maniatis et al .
  • Ligations were performed in 20 ⁇ l volumes containing 30 mM Tris-HCl pH 7.8, 10 mM MgCl 2 , 10 mM DTT, 1 mM ATP, 300-400 ng vector DNA, 100-200 ng insert DNA and 1 Weiss unit T 4 DNA ligase. After ligation for 2-4 h at room temperature, CaCl 2 competent E. coli JM109 (Maniatis) were transformed using 7.5 ⁇ l ligation reaction. The transformation mixtures were plated onto SOBAG plates and grown overnight at 37°C.
  • each reaction was checked for the presence of a band of the appropriate size by agarose gel electrophoresis.
  • One or two 100 ⁇ l PCR reaction mixtures of each of the PCR reactions PCR.I - PCR.X ( Figure 20-29), together containing approximately 2-4 ⁇ g DNA product were subjected to phenol-chloroform extraction, chloroform extraction and ethanol precipitation. The DNA pellets were washed twice with 70% ethanol and allowed to dry. Next, the PCR products were digested overnight (18 h) in the presence of excess restriction enzyme in the following mixes at the specified temperatures and volumes.
  • PCR . I I I was digested with EcoRI (overnight at 37°C) by the addition of 16 ⁇ l H 2 O, 30 ⁇ l 10x "One-
  • pGOSA.E The construction of pGOSA.E (see Figure 8) involved several cloning steps that produced 4 intermediate constructs pGOSA.A to pGOSA.D (see Figure 30-34).
  • the final expression vector pGOSA.E and the oligonucleotides in Table 1 above have been designed to enable most specificities to be cloned into the final pGOSA.E construct ( Figure 9).
  • the upstream V H domain can be replaced by any PstI-BstEII V H gene fragment obtained with oligonucleotides PCR.51 and
  • PCR.89 see Table 1 above.
  • the oligonucleotides DBL.3 and DBL.4 were designed to introduce SfiI and NheI restriction sites in the V H gene fragments thus allowing cloning of those V H gene fragments into the SfiI- NheI sites as the downstream V H domain. All V L gene
  • fragments obtained with oligonucleotides PCR.116 and PCR.90 can be cloned into the position of the V L .3418 gene fragment as a SacI-XhoI fragment.
  • V H .3418 gene fragment Oligonucleotides DBL.8 and DBL.9 (see Table 1 above) are designed to allow cloning of V L gene fragments into the position of the V L .4715 gene fragment as a SalI -NotI fragment.
  • the pGOSA.E derivatives pGOSA.V, pGOSA.S and pGOSA.T with only one or no linker sequences contain some aberrant restriction sites at the new joining points.
  • the V H A-V H B construct without a linker lacks the 5' V H B SfiI site.
  • V H B fragment is cloned into these constructs as a BstEII/NheI fragment using oligonucleotides DBL.10 or DBL.11 and DBL.4 (see Table 1 above).
  • the V L B-V L A construct without a linker lacks the 5' V L A SalI site.
  • the V L A fragment is cloned into these constructs as a XhoI/EcoRI fragment using oligonucleotides DBL.11 and DBL.9 (see Table l above).
  • This plasmid is derived from both the Fv.4715-myc construct and the scFv.4715-myc construct.
  • oligonucleotides used to produce PCR-I were designed to match the sequence of the framework-3 region of V H .4715 and to prime at the junction of the DNA encoding the (Gly 4 Ser) 3 linker and the V L .4715 gene fragment, respectively.
  • pGOSA.A can be indicated as: pelB-V H 4715-linkerA-(SfiI)-V L 4715-myc.
  • This plasmid is derived from plasmid Fv.3418 (see Figure 31).
  • the XhoI-EcoRI fragment of plasmid Fv.3418 comprising the 3' end of DNA encoding framework-4 of the V L including the stop codon was removed and replaced by the fragment PCR-IV XhoI/ EcoRI ( Figure 23).
  • the oligonucleotides used to produce PCR-IV (DBL.6 and DBL.7, see Table 1 above) were designed to match the sequence at the junction of the V L and the (Gly 4 Ser) 3 linker perfectly (DBL.6), and to be able to prime at the junction of the (Gly 4 Ser) 3 linker and the V H in pUR.4124 (DBL.7).
  • pGOSA.B can be indicated as:
  • This plasmid contains DNA encoding V H .4715 linked by the (Gly 4 Ser) 3 AlaGlySerAla linker to V H .3418 (see Figure 32), thus: pelB-V H 4715-linkerA-V H 3418.
  • This construct was obtained by replacing the SfiI-EcoRI fragment from pGOSA.A encoding V L .4715 by the fragment PCR-II SfiI/EcoRI containing the V H .3418 gene (see Figure 21).
  • the oligonucleotides used to produce PCR-II hybridize in the framework-1 and framework-4 region of the gene encoding V H .3418,
  • DBL.3 was designed to remove the PstI
  • DBL.4 destroys the BstEII restriction site in the framework-4 region and introduces an NheI restriction site downstream of the stopcodon.
  • This plasmid contains a dicistronic operon comprising the V H .3418 gene and D ⁇ A encoding V L .3418 linked by the
  • oligonucleotides used to obtain PCR-V were designed to match the nucleotide sequence of the framework-1 and framework-4 regions of the V L .4715 gene, respectively.
  • DBL.8 removed the SacI site from the framework-1 region (silent mutation) and introduced a SalI restriction site upstream of the V L .4715 gene.
  • DBL.9 destroyed the XhoI restriction site in the framework-4 region of the V L .4715 gene (silent mutation) and introduced a NotI and an EcoRI restriction site downstream of the stop codon.
  • This plasmid contains a dicistronic operon comprising D ⁇ A encoding V H .4715 linked by the (Gly 4 Ser) 3 AlaGlySerAla linker to V H .3418 plus D ⁇ A encoding V L .3418 linked by the
  • the remaining PstI-SacI pGOSA.D vector contains the 5' end of the framework-1 region of V H .3418 upto the PstI restriction site and V L .3418 linked by the (Gly 4 Ser) 2 Gly 4 Val linker to V L .4715 starting from the SacI restriction site in V L .3418.
  • the PstI- NheI pGOSA.C insert contains V H .4715 linked by the (Gly 4 Ser) 3 -AlaGlySerAla linker to V H .3418, starting from the PstI restriction site in the framework-1 region in V H .4715.
  • the NheI-SacI PCR-III fragment provides the ribosome binding site and D ⁇ A encoding the pelB leader sequence for the V L .3418-(Gly 4 Ser) 2 Gly 4 Val-V L .4715 construct.
  • the oligonucleotides DBL.5 and PCR.116 (see Table 1 above) used to generate PCR-III were designed to match the sequence upstream of the ribosome binding site of V L .4715 in Fv.4715 and to introduce an NheI restriction site (DBL.5), and to match the framework-4 region of V L .3418 (PCR.116).
  • This plasmid is derived from pGOSA.E (see Figure 35) from which the BstEII/NheI fragment containing D ⁇ A encoding linkerA-V H .3418 was excised and replaced by the fragment PCR-VII BstEII/NheI containing the V H .3418 gene (see Figure 26).
  • the resulting plasmid pGOSA.V contains V H .3418 linked directly to the framework-4 region of V H .4715, plus V L .4715 linked by the (Gly 4 Ser) 2 Gly 4 Val linker to the framework-4 region of V L .3418, thus:
  • This plasmid is derived from pGOSA.E (see Figure 36) from which the (Gly 4 Ser) 2 Gly 4 Val-V L 4715 XhoI/EcoRI fragment was excised and replaced by the fragment PCR-VIII XhoI/EcoRI which contains V L .4715 (see Figure 27).
  • the resulting plasmid pGOSA.S contains V H .4715 linked by the (Gly 4 Ser) 3 -AlaGlySerAla linker to V H .3418 plus V L .3418 linked directly to the 5' end of the framework-1 region of V L -4715, thus: pelB-V H .4715-linkerA-V H .3418 + pelB-V L .3418*V L .4715.
  • This plasmid contains a dicistronic operon consisting of V H .3418 directly to the framework-4 region of V H .4715 plus V L .3418 linked directly to the 5' end of the framework-1 region of V L .4715 (see Figure 37). Both transcriptional units are preceded by a ribosome binding site and a pelB leader sequence, thus:
  • This plasmid is an intermediate for the synthesis of pGOSA.J. It is derived from pGOSA.E from which the V H 4715 PstI/BstEII fragment has been excised and replaced by the V H 3418 PstI/BstEII fragment (excised from Fv.3418).
  • the resulting plasmid pGOSA.G contains two copies of V H .3418 linked by the (Gly 4 Ser) 3 AlaGlySerAla linker, plus V L .4715 linked by the (Gly 4 Ser) 2 Gly 4 Val linker to the framework-4 region of V L .3418, thus:
  • This plasmid contains a dicistronic operon consisting of V H .3418 linked by the (Gly 4 Ser) 3 AlaGlySerAla linker to
  • This plasmid is derived from pGOSA.G from which the
  • This plasmid contains a dicistronic operon consisting of the V H .3418 linked directly to the 5' end of the framework-1 region of V H .4715 plus V L .3418 linked directly to the 5' end of the framework-1 region of V L .4715.
  • transcriptional units are preceded by a ribosome binding site and a pelB leader sequence (see Figure 41).
  • This construct was obtained by inserting the NheI/EcoRI fragment of pGOSA.T which contains V L .3418 linked directly to the 5' end of the framework-1 region of V L .4715, into the vector pGOSA.Z from which the NheI/EcoRI fragment containing
  • This plasmid is derived from pGOSA.J by a three point ligation reaction (see Figure 42).
  • V H .3418 linked directly to the framework-1 region of V L .4715 (see Figure 37).
  • the resulting plasmid contains V H .3418 linked by the (Gly 4 Ser) 3 AlaGlySerAla linker to the 5' end of the framework-1 region of V H .4715 plus V L .3418 linked directly to the 5' end of the framework-1 region of V L .4715, thus:
  • This plasmid is derived from pGOSA.E from which the
  • HindIII/NheI fragment containing D ⁇ A encoding V H .4715- (Gly 4 Ser) 3 AlaGlySerAla-V H .3418 was removed (see Figure 43).
  • the D ⁇ A ends of the vector were made blunt-end using Klenow D ⁇ A polymerase and ligated.
  • the resulting plasmid pGOSA.L contains V L .3418 linked by the (Gly 4 Ser) 2 Gly 4 Val linker to the 5' end of the framework-1 region of V L .4715, thus:
  • This plasmid is derived from pGOSA.T from which the
  • HindIII/NheI fragment containing D ⁇ A encoding V H .4715-V H .3418 was removed (see Figure 44).
  • the D ⁇ A ends of the vector were made blunt-end using Klenow D ⁇ A polymerase and ligated.
  • the resulting plasmid pGOSA.Y contains V L .3418 linked directly to 5' end of the framework-1 region of V L .4715, thus:
  • This plasmid is derived from pGOSA.T from which the
  • This plasmid is derived from pGOSA.Z from which the
  • NheI/EcoRI fragment containing DNA encoding V L .3418- (Gly 4 Ser) 2 Gly 4 Val-V L .4715 was removed (see Figure 46).
  • the DNA ends of the vector were made blunt-end using Klenow DNA polymerase and ligated.
  • the resulting plasmid pGOSA.AC contains V H .3418 linked directly to 5' end of the
  • This plasmid was obtained by inserting the PstI/ EcoRI PCR.X fragment containing DNA encoding V H .3418-(Gly 4 Ser) 3 AlaGly-SerAla-V H .4715 (see Figure 29) into the Fv.4715-myc vector from which the PstI/EcoRI Fv.4715-myc insert was removed (see Figure 47), thus: pelB-V H .3418-linkerA-V H .4715.
  • These monocistronic constructs can be used to transform the same host with two different plasmids or to transform two different hosts, so that the two V H 's in series can be produced separately from the two V L 's in series.
  • variable domains are linked either directly or through a polypeptide linker.
  • double heads contain both antigen binding specificities of the Fv's used to generate these multi-functional antibody fragments.
  • Figure 12 shows that GOSA.E can be used to specifically target the enzyme glucose oxidase to several Streptococcus sanguis strains, using antibody fragments derived from hybridomas expressing antibodies directed against these antigens.
  • Figure 12 further shows that the fine specificity of the anti- Streptococcus sanguis scFv 4715 is preserved in the GOSA.E double head.
  • V H A-V H B + V L B-V L A V H A-LinkerA-V H B + V L B-LinkerV-V L A
  • GOSA.J V H B-LinkerA-V H A + V L B-LinkerV-V L A
  • connecting linkers are kept long enough (to span 30 to 35 ⁇ ), the protein chains could fold such that both binding sites are fully accessible.
  • V H A-V H B + V L B-V L A (GOSA.E) wherein linker length was not critical, was predicted to result in a complex with both binding sites facing in opposite directions, without the restraints suggested for the configuration V H B-V H A + V L B-V L A (GOSA.J).
  • the sensitivity of the GOSA.E double head is as least as a sensitive as an
  • IgG-glucose oxidase conjugate as determined by the lowest concentration of Streptococcus sanguis antigen immobilised on a solid phase that is still detectable.
  • GOSA double heads are produced as dimers
  • GOSA.V, GOSA.S and GOSA.T samples usually gave only one GOSA double head activity peak as determined by ELISA
  • molecules together in one cell can be produced by translation from one dicistronic messenger (GOSA.E, GOSA.S,
  • Table 2A describes intermediate constructs that were not further tested.
  • Table 2B describes the dicistronic constructs.
  • Table 2C describes the monocistronic constructs.
  • PROTEINS THEIR MANUFACTURE AND USE; first priority date 04.12.92
  • Platelet Fibrinogen Receptor Contains a Sequence That

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Abstract

L'invention concerne un analogue de fragment d'anticorps bispécifique ou bivalent, comprenant un complexe de fixation contenant deux chaînes polypeptidiques, et caractérisé en ce que l'une de celles-ci comporte deux domaines (VH) variables de chaîne lourde, en série, et l'autre comporte deux domaines (VL) variables de chaîne légère, en série, et en ce que le complexe de fixation comprend en outre deux paires de domaines variables (VH-A//VL-A et VHB//VL-B). Les deux domaines VH et/ou les deux domaines VL sont reliés directement ou au moyen d'un segment de liaison peptidique intermédiaire. On décrit également un procédé de production de tels analogues de fragment d'anticorps.
PCT/EP1996/003605 1995-10-16 1996-08-14 Analogue de fragment d'anticorps bifonctionnel ou bivalent WO1997014719A1 (fr)

Priority Applications (4)

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AU68733/96A AU6873396A (en) 1995-10-16 1996-08-14 A bifunctional or bivalent antibody fragment analogue
BR9606706A BR9606706A (pt) 1995-10-16 1996-08-14 Análogo de fragmento de anticorpo biespecífico ou bivalente uso processo para produzir o mesmo
US08/860,174 US5989830A (en) 1995-10-16 1996-08-14 Bifunctional or bivalent antibody fragment analogue
EP96929260A EP0799244A1 (fr) 1995-10-16 1996-08-14 Analogue de fragment d'anticorps bifonctionnel ou bivalent

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EP95307332 1995-10-16
GB95307332.7 1995-10-16

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US5989830A (en) 1999-11-23
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AU6873396A (en) 1997-05-07

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